The CGA6P1X7R1C226M is a ceramic capacitor manufactured by TDK Corporation. It's a multilayer ceramic capacitor (MLCC) designed for general-purpose applications. This capacitor is commonly used for decoupling, filtering, and bypass applications in electronic circuits.
Applications:
- Decoupling: Used to decouple power supply lines in electronic circuits.
- Filtering: Employed in filtering circuits to remove unwanted noise and ripple.
- Bypass: Utilized as a bypass capacitor to shunt high-frequency signals to ground.
- General-Purpose Applications: Suitable for a wide range of general-purpose applications in electronic circuits.
- Consumer Electronics: Found in devices like smartphones, tablets, and laptops.
Features:
- Ceramic Dielectric: Uses a ceramic dielectric material for high stability and reliability.
- Multilayer Construction: Multilayer construction provides high capacitance in a small size.
- Surface Mount Package: Available in a small surface mount package for easy integration.
- High Capacitance Value: Offers a capacitance value of 22uF.
- RoHS Compliant: Compliant with RoHS standards.
Benefits:
- Stable Performance: Ceramic dielectric provides stable performance over temperature and voltage.
- Compact Size: Small package size enables compact circuit designs.
- Reliable Operation: Robust construction for reliable operation in demanding environments.
- Effective Decoupling: Provides effective decoupling of power supply lines.
- Environmentally Friendly: Compliant with environmental regulations.
Additional Details:
The CGA6P1X7R1C226M is designed for reflow soldering. The operating temperature range is typically between -55°C and +125°C. The voltage rating is 16V. The datasheet provides detailed information on the electrical characteristics and dimensions. Proper soldering techniques are essential to ensure reliable connection to the circuit board. The capacitor is non-polarized and can be used in either polarity. The CGA6P1X7R1C226M provides a reliable and cost-effective solution for decoupling, filtering, and bypass applications.